JP4272971B2 - Orthosis, supporter and corset - Google Patents

Description

The present invention relates to a supporter such as a supporter that restricts movement of a body joint or presses and holds the joint , and a supporter and a corset.

Conventionally, a supporter with a reinforcing member for assisting body movement is known. This supporter with a reinforcing member is manufactured as follows. First, the thermoplastic rubber-like synthetic resin is heated to about 120 ° C. with a heater to form a liquid, and the liquid rubber-like thermoplastic rubber-like synthetic resin is formed into a strip having a thickness of 1 to 2 mm. Apply to the surface. The reinforcing member is formed by curing the liquid thermoplastic rubber-like synthetic resin applied to the surface of the supporter body by natural cooling. For example, in a supporter with a reinforcement member for knees, the reinforcement member is disposed at a position corresponding to the inner and outer surfaces of the wearer's knee when the supporter is mounted on a foot (knee). The reinforcing member assists the bending and stretching of the knee joint and prevents the knee joint from shaking due to its bending rigidity and elastic restoring force. That is, when the knee joint is bent while the supporter with the reinforcing member is attached to the foot, the supporter body and the reinforcing member formed on the supporter body are bent at the same time. At this time, the motion of the knee joint is limited by the bending rigidity of the reinforcing member, and the expansion motion of the knee joint is assisted by the elastic force of the reinforcing member (see, for example, Patent Document 1 and Patent Document 2).
Japanese Patent Publication No. 5-1021 (Pages 1 and 2, Fig. 1) Japanese Patent No. 32253933 (pages 2 to 4, FIG. 1)

  However, the supporters with reinforcing members of Patent Document 1 and Patent Document 2 have the following problems. That is, since a reinforcing member is formed by applying a liquid thermoplastic rubbery synthetic resin to the surface of the supporter body, the reinforcing member (thermoplastic rubbery synthetic resin) tends to be thick and poor in appearance. There was a fear. In addition, after the liquid thermoplastic rubbery synthetic resin is applied to the surface of the supporter body, a curing step is required in which the thermoplastic rubbery synthetic resin is cured. In particular, when the thermoplastic rubber-like synthetic resin is cured by natural cooling, it is necessary to secure a predetermined cooling time, and thus there is a limit to improving the production efficiency.

The present invention was made in view of the above problems, and its object is orthosis that can be improved manufacturing efficiency as well as improve the appearance, it is to provide a supporter and corset.

In order to solve the above problems, the invention according to claim 1 is an elastic sheet layer having elasticity cut into a predetermined shape in a cloth device that assists body movement by being attached to a part of the body. And a hot melt adhesive layer are placed so that the hot melt adhesive layer is located at a predetermined position on the surface of the brace and heat-sealed, thereby reinforcing the body movement The gist is that the members are configured.

According to the second aspect of the present invention, there is provided a support body made of a fabric to be attached to a part of the body, and a joint provided by restricting or compressing the movement of the body joint provided at a predetermined portion on the surface of the support body. in supporters and a reinforcing member for or held, the elastic sheet layer and a sheet body consisting of a hot-melt adhesive layer, the supporter body hot-melt adhesive layer of the sheet body having an elastic cut into a predetermined shape The gist of the invention is that the reinforcing member is configured by being arranged and heat-sealed so as to be positioned at a predetermined portion on the surface of the steel sheet.

The invention according to claim 3 includes a corset body wound around a part of the body, and a cushion material disposed inside the corset body so as to protrude inside the corset body, and the corset body is attached to the body. An elastic sheet layer and a hot melt adhesive layer having elasticity cut into a predetermined shape in a corset in which the cushion material is arranged so that the cushion material hits a predetermined part of the body when wound on a part The main body of the sheet is arranged such that the hot melt adhesive layer of the sheet main body is located at a portion corresponding to the cushion material on the inner side surface of the corset main body , and is heat-sealed. To do.

(Function)
According to the first aspect of the present invention, the elastic sheet layer having elasticity is provided at a predetermined portion on the surface of the brace that is attached to a part of the body and protects the joints of the body or assists the bending and stretching movement. And a reinforcing member using a sheet body made of a hot melt adhesive layer is heat-sealed. For this reason, the elongation at the site where the sheet main body of the appliance is heat-sealed is suppressed, and the stretching operation of the body or a part thereof is assisted by the elastic force of the elastic sheet layer. Moreover, since the sheet body can be easily heat-sealed to the surface of the appliance using an iron or the like, the production efficiency is improved. Further, since the sheet main body is formed in a thin sheet shape, even if the sheet main body is heat-sealed to the surface of the brace, it does not rise greatly, and the appearance of the brace is ensured.

According to the second aspect of the present invention, the support member with the reinforcing member can be manufactured efficiently by configuring the reinforcing member of the supporter using the sheet main body including the elastic sheet layer having elasticity and the hot melt adhesive layer. This improves the appearance of the supporter.

According to the third aspect of the present invention, the sheet main body composed of the elastic sheet layer having elasticity cut into a predetermined shape and the hot melt adhesive layer is provided at the portion corresponding to the cushion material on the inner side surface of the corset main body. Heat-sealed. For this reason, the expansion | extension of the site | part which carried out the heat fusion of the sheet | seat main body in a corset main body is suppressed. Therefore, when the corset is attached to the body, the cushion material is prevented from being pulled and stretched and thinned. As a result, the contact state between the cushion material and the predetermined portion of the waist is kept good.

According to the present invention, by providing an elastic sheet layer and the hot melt adhesive layer having elastic, it can be utilized as a reinforcing member of the appliance, such as a service portal and corset, appliances, the appearance of the supporter and corset This improves the manufacturing efficiency.

(First embodiment)
Hereinafter, an embodiment in which the present invention is embodied in a knee supporter will be described with reference to FIGS.

  As shown in FIGS. 1 and 2, a supporter 11 as a brace includes a supporter body 12 formed of a stretchable fabric (cloth, woven fabric, etc.), and a plurality of supporter bodies 12 are provided on the outer peripheral surface of the supporter body 12. Two sets of reinforcing members 13 are attached so as to face each other. As shown in FIG. 3, when the supporter 11 is attached to the foot 14 and the supporter 11 is viewed from the front, two sets of reinforcing members 13 are arranged on the inner and outer sides of the knee 15 and the patella 16 (the knee plate). Each reinforcing member 13 is arranged so as to avoid the above.

  As shown in FIGS. 4 and 5, the reinforcing member 13 is formed using a thermal transfer sheet 17. The thermal transfer sheet 17 was provided on the release sheet 18 constituting the release layer, the elastic sheet layer 19 provided on one side of the release sheet 18 (the lower surface in FIG. 5), and one side of the elastic sheet layer 19. It has a three-layer structure including a hot melt adhesive layer 20 as an adhesive layer. A sheet body 21 is formed from the hot melt adhesive layer 20 and the elastic sheet layer 19.

  The release sheet 18 is detachably attached to the sheet body 21 (exactly, the elastic sheet 19) through an adhesive layer (not shown), and protects the upper surface of the elastic sheet layer 19. The release sheet 18 is composed of a single layer film made of polyester, polypropylene, polyethylene, alkylbenzene sulfonic acid, polyvinyl chloride, metal, paper, or the like, or a laminate thereof.

  The elastic sheet layer 19 is made of an elastic material such as urethane, acrylic and ester. The strength of the elastic force of the elastic sheet layer 19 varies depending on the material. The elastic sheet layer 19 is colored in a predetermined color, and in this embodiment, the strength of the elastic force of the elastic sheet layer 19 and the color are made to correspond to each other. For example, the elastic force of the sheet body 21 increases in the order of red → blue → white.

  The hot melt adhesive layer 20 is a transparent layer made of polyamide, polyester, polyvinyl chloride, or the like, and has a melting point of about 80 to 250 ° C. The hot melt adhesive layer 20 melts when heated and pressurized to a temperature equal to or higher than the melting point, and penetrates into the joints of the supporter body 12 so that the elastic sheet layer 19 can be heat-sealed to the supporter body 12. It has become. The sheet body 21 can be overlapped and heat-sealed, and the elastic force as the reinforcing member 13 can be adjusted by adjusting the number of sheet bodies 21 to be overlapped. For example, when the supporter 11 is attached to the knee 15, if it is desired to increase the elastic force for assisting the knee joint extension movement, the number of the sheet main bodies 21 may be increased.

  In the thermal transfer sheet 17 of the present embodiment, the release sheet 18 has a thickness of 70 to 100 μm, the hot melt adhesive layer 20 has a thickness of 30 to 40 μm, and the elastic sheet layer 19 has a thickness of 20 to 30 μm. The thickness of the hot melt adhesive layer 20 is adjusted according to the type of fabric to be heat-sealed. For example, when the thermal transfer sheet 17 is heat-sealed to a highly permeable cloth, the thickness of the hot-melt adhesive layer 20 is increased so that the thermal transfer sheet 17 can be easily heat-sealed to the cloth.

(Manufacturing method of supporter)
Next, a method for manufacturing the supporter 11 configured as described above will be described. The supporter 11 is manufactured by a cutting process for forming a pattern and a design (hereinafter referred to as “pattern etc. 22”) on the sheet main body 21 of the thermal transfer sheet 17, and the pattern etc. 22 formed on the sheet main body 21 on the supporter 11. A thermal transfer process for thermal transfer and a peeling process for peeling the release sheet 18 from the sheet body 21 are included.

  First, the cutting process will be described. This cutting process is performed using a cutting plotter (not shown). The cutting plotter includes a sheet supply mechanism that supplies the thermal transfer sheet 17 onto the sheet traveling path, and a sheet feeding mechanism that forwards and reverses the thermal transfer sheet 17 along the sheet traveling path. Further, the cutting plotter includes a cutting plotter mechanism that cuts the outline of the pattern 22 in cooperation with the sheet feeding mechanism, and a controller that performs overall control of these mechanisms.

  In the cutting process using the cutting plotter, the user inputs information corresponding to the pattern 22 from the controller and operates the cutting plotter. Then, the sheet supply mechanism and the sheet feeding mechanism are driven to introduce the thermal transfer sheet 17 into the sheet traveling path, and the thermal transfer sheet 17 is cut into a predetermined dimension. Subsequently, the sheet feeding mechanism and the cutting plotter mechanism are driven to perform outline cutting along the outline of the pattern 22 or the like.

  At this time, the outline cut of the pattern 22 is a half cut that cuts only the sheet main body 21 of the thermal transfer sheet 17, and the cutting bit of the cutting plotter mechanism is cut and moved relative to the thermal transfer sheet 17 in the XY direction. Done. As a result, for example, a thermal transfer sheet 17 as shown in FIG. 4 is obtained.

  Next, the thermal transfer process will be described. This thermal transfer step is a step of thermally transferring the pattern or the like 22 formed on the thermal transfer sheet 17 by the cutting step to the supporter body 12. First, the supporter body 12 and the thermal transfer sheet 17 are overlapped so that the thermal transfer sheet 17 as shown in FIG. 4 contacts the upper surface of the supporter body 12 (more precisely, the outer peripheral surface, see FIG. 1). That is, the hot melt adhesive layer 20 is disposed on the surface of the support body 12, and the elastic sheet layer 19 is disposed on the hot melt adhesive layer 20. And the peeling sheet 18 is arrange | positioned on the elastic sheet layer 19, and the peeling sheet 18 is the top.

  Next, when a temperature of 150 to 180 ° C. and a predetermined pressure are respectively applied for about 1 to 15 seconds from the top of the release sheet 18 using an iron and a press machine, the hot melt adhesive layer 20 is melted, and the supporter It penetrates into the joints of the fabric forming the main body 12. And the elastic sheet layer 19 is adhere | attached on the upper surface of the supporter main body 12, when the hot-melt-adhesive agent layer 20 solidifies by natural cooling, forced cooling, etc. In this embodiment, since the thickness of the hot melt adhesive layer 20 is set to 30 to 40 μm, it is solidified faster than the case where the thickness of the hot melt adhesive layer 20 is set to 1 to 2 mm, for example. .

  Finally, the peeling process will be described. In this peeling step, the release sheet 18 of the thermal transfer sheet 17 that is heat-sealed to the surface of the supporter main body 12 by the hot melt adhesive layer 20 is peeled from the elastic sheet layer 19. Then, as shown in FIGS. 1 to 3, only the sheet main body 21 displaying the pattern 22 is visible on the surface of the supporter main body 12, and the supporter 11 with the reinforcing member 13 is formed.

  Even when a plurality of sheet main bodies 21 are superposed on the supporter main body 12, the sheet main body 21 can be heat-sealed to an arbitrary part of the supporter main body 12 by repeating the processes from the cutting process to the peeling process.

(Operation of the first embodiment)
As shown in FIGS. 1 and 3, when the supporter 11 to which the sheet main body 21 of the thermal transfer sheet 17 is heat-sealed is attached to, for example, the knee 15, the sheet main body 21 is disposed on the inner and outer surfaces of the knee 15. Installing. At this time, the inner and outer surfaces of the knee 15 are compressed by the supporter 11, and the left and right sides of the patella 16 are firmly held. The pattern etc. 22 of the sheet body 21 of the present embodiment is such that when the knee joint is folded without covering the upper surface of the patella 16, the supporter body 12 on the upper surface of the patella 16 is stretched and is easily bent and stretched. It is like that.

  Furthermore, the seat body 21 provided on the inner and outer surfaces of the knee 15 is used as the reinforcing member 13, and the bending motion of the knee joint is limited by the bending rigidity thereof. This is because the elastic sheet layer 19 reaches the elastic limit before the yarns constituting the supporter body 12 are completely extended, thereby suppressing the extension of the supporter 11. Thereby, even if a large force is applied to the supporter 11 to cause deformation, the supporter 11 is restrained from being stretched by the elastic force of the elastic sheet layer 19.

  At this time, the supporter main body 12 and the seat main body 21 are bent at the same time, but the elastic force of the seat main body 21 acts in the direction in which the knee 15 extends, and assists the extension movement of the knee joint. The thickness and shape of the sheet main body 21 may be appropriately determined according to the desired elastic force, and in particular, by adjusting the width of the sheet main body 21, the area of the plate-like portion, the number of stacked sheets of the sheet main body 21, etc. The elastic force as 13 can be freely set within a wide range. Moreover, since the sheet main body 21 expands and contracts flexibly due to the elasticity of the elastic sheet layer 19, the sheet main body 21 is prevented from being deteriorated and cracked.

(Effect of 1st Embodiment)
According to the thermal transfer sheet 17 and the supporter 11 using the thermal transfer sheet 17 of the present embodiment, the following effects can be obtained.

  -The thermal transfer sheet 17 of this embodiment is comprised from the peeling sheet 18, the elastic sheet layer 19, and the hot-melt-adhesive agent layer 20. FIG. The elastic sheet layer 19 is made of a stretchable material such as urethane, acrylic, or ester. The hot melt adhesive layer 20 is a transparent layer made of polyamide, polyester, polyvinyl chloride or the like, and has a melting point of about 80 to 250 ° C. For this reason, the thermal transfer sheet 17 can be easily heat-sealed to the supporter body 12 by using an iron, a press machine, or the like. For this reason, the manufacturing operation of the supporter 11 with the reinforcing member 13 becomes extremely simple, and even a person who does not have special skills can easily and efficiently manufacture the supporter 11. The manufacturing cost of the supporter 11 can also be suppressed. Further, since the sheet main body 21 of the thermal transfer sheet 17 is formed in a thin sheet shape, the appearance of the sheet main body 21 can be improved without the sheet main body 21 being greatly raised on the surface of the supporter main body 12.

  The thermal transfer sheet 17 is composed of three layers including an elastic sheet layer 19. The elongation of the elastic sheet layer 19 is allowed until the elastic limit of the elastic sheet layer 19 is reached. By providing the thermal transfer sheet 17 with the elastic sheet layer 19, the thermal transfer sheet 17 can be used as the reinforcing member 13 of the supporter 11 that needs to be stretchable. Therefore, when the supporter 11 with the sheet main body 21 heat-sealed is attached to the knee 15 and the knee 15 is bent and stretched, the supporter 11 expands and contracts, but the sheet main body 21 of the thermal transfer sheet 17 is heat-sealed. The elongation of the part is suppressed by the elastic force of the elastic sheet layer 19. For this reason, the elastic force by the elastic sheet layer 19 acts in the direction in which the knee 15 extends, thereby assisting the extension motion of the knee joint. Further, since the elastic sheet layer 19 has elasticity, the sheet main body 21 (elastic sheet layer 19) is prevented from being cut (teared) when the supporter 11 is extended by an extension movement of the knee joint. Note that the sheet body 21 that does not include the elastic sheet layer 19 may not be able to cope with the elongation of the supporter 11 and may be cut (broken).

  The elastic sheet layer 19 of the thermal transfer sheet 17 is colored in a predetermined color. For this reason, it is possible to make the thermal transfer sheet 17 rich in color. Moreover, if the thermal transfer sheets 17 of a plurality of colors are prepared and are appropriately heat-sealed to the surface of the supporter body 12, the appearance of the supporter 11 with the reinforcing member 13 can be further improved.

  Furthermore, the strength of the elastic force of the elastic sheet layer 19 is color-coded. For example, the elastic force of the sheet body 21 is increased in the order of red → blue → white. For this reason, the strength of the elastic force of the sheet body 21 can be identified at a glance. Accordingly, when a plurality of types of thermal transfer sheets 17 having different elastic forces are used in combination, the production efficiency and quality of the supporter 11 can be improved.

  -The supporter 11 with different elastic force of the reinforcing member 13 can be realized for each part by adjusting the number of stacked sheet bodies 21 and using a plurality of types of thermal transfer sheets 17 with different elastic forces in combination. It can respond to various requests of users.

  The thermal transfer sheet 17 is composed of three layers: a release sheet 18, an elastic sheet layer 19, and a hot melt adhesive layer 20. For this reason, it is possible to make a half cut by cutting only the sheet main body 21 composed of the elastic sheet layer 19 and the hot melt adhesive layer 20 by the cutting plotter, and create the sheet main body 21 into a favorite pattern 22 or the like. be able to. Therefore, the shape of the reinforcing member 13 can also be set arbitrarily, and variations can be given to the design of the reinforcing member 13 and thus the supporter 11. And the appearance is further improved. A pattern 22 or the like that has been impossible as the reinforcing member 13 in the past can be formed, and can meet various requests of users.

(Second Embodiment)
Next, a second embodiment of the present invention will be described with reference to FIGS. This embodiment is different from the first embodiment in that the thermal transfer sheet 17 is heat-sealed to a waist corset. Accordingly, the same reference numerals are given to the same member configurations as those in the first embodiment, and a duplicate description thereof is omitted.

  As shown in FIGS. 6 and 7, a lumbar corset 31 as a brace includes a corset body 32 having a strip shape extending in the left-right direction. Generally, when a person walks, muscles around the hip joint (such as the greater aneurysm, middle gluteal muscle, and small ankle) are used so that the corset body 32 increases the abdominal pressure when the waist is wrapped around. It has become. This is because the trunk (torso) can be firmly fixed by increasing the abdominal pressure, and the burden on the waist can be reduced. A hook-and-loop fastener 33 is provided at one end of the corset main body 32, and when the waist corset 31 is wound around the waist, the raised surface (not shown) of the fabric provided at the other end of the corset main body 32 is a surface. It is formed so as to stick to the fastener 33.

  A waist compression portion 34 is provided at the center of the inner surface of the corset body 32. The hip compression part 34 is formed by sewing a cushion material 35 having elasticity into the corset body 32 in a packed state. The hip compression part 34 is raised on the inner side of the corset body 32. On the inner side surface of the corset body 32, a pair of lateral waist compression portions 36 are provided on both outer sides of the waist compression portion 34 so as to sandwich the waist compression portion 34 therebetween. Both the waist lateral compression portions 36 are formed by sewing the cushion members 35 in the same manner as the waist compression portions 34, and are swelled inside the corset body 32.

  On the inner side surface of the corset main body 32, a pair of mesenteric muscle compression portions 37 are provided at lower portions on both outer sides of the lateral waist compression portion 36, respectively. Similar to the lumbar compression portion 34 and the lumbar lateral compression portion 36, both the middle gluteal muscle compression portions 37 are formed by sewing the cushion material 35, and are raised inside the corset body 32. The middle ankle muscle compression portion 37 is in contact with the hip bone (not shown), and in the contact state, the corset main body 32 wraps and holds the middle ankle muscle (not shown). The sheet main body 21 of the thermal transfer sheet 17 is heat-sealed at portions corresponding to the lumbar compression portion 34, the lateral waist compression portion 36, and the midcostal muscle compression portion 37 on the inner surface of the corset main body 32. The sheet main body 21 is heat-sealed so as to suppress the expansion of the portions of the lumbar compression portion 34, the lateral waist compression portion 36, and the midcostal muscle compression portion 37 as the reinforcing member 13.

(Operation of Second Embodiment)
When the lumbar corset 31 is mounted, the lumbar compression portion 34 of the lumbar corset 31 is applied to the waist. Then, the left and right ends of the corset body 32 are respectively gripped by hands, and the corset body 32 is wound forward so as to hit the hipbone while slightly tensioning (extending) the whole. The upper edge of the corset body 32 is positioned near the navel, and the surface fastener 33 provided at one end of the corset body 32 is pressed against the raised surface provided at the other end. This can increase the abdominal pressure. At this time, even when the corset main body 32 is pulled to the left and right by the sheet main body 21 thermally fused to the lumbar compression section 34, the lateral waist compression section 36, and the midcostal muscle compression section 37, the inner surface of the sheet main body 21 is applied. The elastic sheet layer 19 provided does not extend beyond the elastic force. For this reason, when bending down, the cushion material 35 attached to the corset main body 32 is held in a predetermined position without extending and thinning.

(Effect of 2nd Embodiment)
According to the waist corset 31 using the thermal transfer sheet 17 of the above embodiment, the following effects can be obtained.

  In the lumbar corset 31 of the present embodiment, the lumbar compression part 34 at the center, the lumbar lateral compression part 36 on both sides of the lumbar compression part 34, and the middle gluteal muscle compression part at the lower part on both outer sides of the lateral waist compression part 36 37 is formed. The sheet main body 21 of the thermal transfer sheet 17 is heat-sealed at portions corresponding to the lumbar compression portion 34, the lateral waist compression portion 36, and the midcostal muscle compression portion 37 on the inner surface of the corset main body 32. For this reason, the elastic sheet layer 19 of the seat body 21 can suppress the elongation of each cushion material 35 and can maintain the thickness of the cushion material 35. Then, it is possible to effectively press the middle gluteus muscle and stabilize the hip joint and pelvis. Moreover, the contact state with the lumbar compression part 34 in contact with the cushion material 35, the lateral waist compression part 36, and the mesenteric muscle compression part 37 is maintained well. In addition, since the sheet main body 21 is formed in a thin sheet shape, the sheet main body 21 can be used by being heat-sealed to a portion that directly contacts the human body without feeling uncomfortable. Further, since the elastic force of the seat body 21 can be adjusted by the number of sheets to be superimposed, the waist corset 31 that is optimal for each person can be manufactured at low cost and efficiently.

In the first and second embodiments, the thermal transfer sheet 17 is used for the supporter 11 and the lumbar corset 31, but it may be used for exercise clothing such as spats and equipment such as an elbow supporter.
Next, technical ideas that can be grasped from the above-described embodiment and other examples will be described below together with their effects.

  The thermal transfer sheet according to claim 1 or 2, wherein the thickness relationship among the release layer, the adhesive layer, and the elastic sheet layer is such that release layer> adhesive layer> elastic sheet layer. The release layer is finally peeled off, and the adhesive layer soaks into joints such as appliances that assist the body movement by heat fusion. For example, when the adhesive sheet is heat-sealed to the surface of the appliance with an adhesive layer, the thickness of the elastic sheet becomes less noticeable. Therefore, a better-looking appliance can be formed. In addition, when the elastic sheet layer is heat-sealed to a portion that directly contacts the human body, the appliance can be worn more comfortably.

The perspective view which shows the supporter of 1st Embodiment. The top view which shows the supporter of 1st Embodiment. The front view which shows the supporter of 1st Embodiment. The top view which shows a thermal transfer sheet. 5-5 sectional drawing in the thermal transfer sheet of FIG. A top view showing a waist corset of a 2nd embodiment. A front view showing a waist corset of a 2nd embodiment.

Explanation of symbols

  DESCRIPTION OF SYMBOLS 11 ... Supporter as a brace, 12 ... Supporter main body, 13 ... Reinforcing member, 17 ... Thermal transfer sheet, 18 ... Release sheet layer as release layer, 19 ... Elastic sheet layer, 20 ... Hot melt adhesive layer as adhesive layer 21 ... Seat body, 31 ... Lumbar corset as a brace, 32 ... Corset body, 35 ... Cushion material.

Claims (3)

  In an orthosis made of fabric that assists body movement by being worn on a part of the body,
  A sheet body composed of an elastic sheet layer having elasticity cut into a predetermined shape and a hot melt adhesive layer is disposed so that the hot melt adhesive layer is located at a predetermined position on the surface of the device. A brace that is worn and thereby constitutes a reinforcing member that assists body movement.   A supporter body made of fabric to be attached to a part of the body;
  A supporter provided with a reinforcing member that is provided at a predetermined portion on the surface of the supporter main body and restricts movement of a body joint or compresses and holds the joint.
  A sheet body composed of an elastic sheet layer having elasticity cut into a predetermined shape and a hot melt adhesive layer is arranged so that the hot melt adhesive layer of the sheet body is positioned at a predetermined position on the surface of the support body. A supporter configured to constitute the reinforcing member by fusing.   A corset body wrapped around a part of the body,
  A cushioning material disposed inside the corset body so as to protrude to the inside of the corset body,
  In the corset in which the cushion material is set so that the cushion material hits a predetermined part of the body when the corset body is wound around a part of the body,
  A sheet main body composed of an elastic sheet layer having elasticity cut into a predetermined shape and a hot melt adhesive layer is positioned in a portion of the sheet main body where the hot melt adhesive layer corresponds to a cushion material on the inner side surface of the corset main body. Corset that is arranged and heat-sealed.

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